Fifth Wheel Lock Verification Using Magnetic Flux Sensing

The patent implements a feedback system where sensors detect the position of the movable component (jaw or wedge) and provide signals to a controller. The controller processes these signals and provides visual or audible feedback to confirm whether the fifth wheel is properly locked. This feedback mechanism resolves the contradiction by adding verification capability without excessive complexity, using straightforward sensor-controller-indicator architecture.

The patent replaces manual verification of the locking mechanism with automated sensor-based detection. Instead of requiring operators to physically inspect the mechanical components, magnetic sensors or Hall effect sensors detect the position of magnetized components, and electronic controllers process this data. This substitution of mechanical inspection with electronic sensing and processing achieves reliable verification while maintaining reasonable system complexity.

The patent incorporates sensors that continuously monitor the position and movement characteristics of the locking components. By analyzing the travel distance and position variations of the jaw or wedge over time, the system detects wear patterns. This feedback approach enables wear detection by comparing actual component positions against expected ranges, providing reliability monitoring without requiring complex diagnostic systems.

The fifth wheel system performs self-monitoring through integrated sensors that track the operational state of its own components. The controller analyzes sensor data to detect wear conditions, eliminating the need for separate external monitoring equipment. This self-service capability achieves wear detection while minimizing additional system complexity, as the monitoring function is embedded within the existing control architecture.

The patent replaces manual physical inspection with automated sensor-based detection systems. Magnetic sensors or Hall effect sensors continuously monitor the position of magnetized components on the jaw or wedge, providing precise measurement of the locking state without requiring operator intervention. This substitution achieves high measurement precision while eliminating inspection time loss, as the system operates continuously and provides immediate status information through visual or audible indicators.

The patent implements continuous monitoring of the locking state through sensors that operate throughout the entire operational cycle. Rather than periodic manual checks, the sensor system provides uninterrupted detection of component positions, ensuring the locking state is always known. This continuous action maintains measurement precision while eliminating time loss associated with intermittent manual inspections, as verification occurs automatically and continuously.